A6061-AISI304异种金属连续驱动摩擦焊的温度循环分析

Totok Suwanda, R. Soenoko, Y. Irawan, Moch. Agus Choiron
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引用次数: 1

摘要

在之前的研究中,研究了连续驱动摩擦焊接(CDFW),以确定连接强度、烧断量和温度分布。在本研究中,异种金属CDFW研究来评估温度循环分析。铝6061 (A6061)的工件是固定的,并在1,000转/分钟旋转AISI 304。使用OMEGA热电偶数据记录仪测量温度分布。热电偶安装在连接位置附近,距离接头5mm。在计算机仿真中,利用ANSYS Design Modeler设计了CDFW的几何形状。利用ANSYS学术版Rel. 18.1对瞬态热分析和静力结构分析相结合的计算机仿真进行了建模。边界条件是在实验条件的基础上设定的,其中铝质6061固定,AISI 304以1000 rpm的转速旋转。根据实验结果,可以测量出温度分布作为外表面中心位置的距离。从模拟结果可以看出,温度循环曲线与实验结果具有相同的趋势。力学性能提供了这种现象在抗拉强度、显微组织和硬度试验的特征中表现出来作为模型分析,以表示温度循环剖面与力学性能试验结果的联系。显微组织观察表明,不锈钢侧晶粒尺寸和晶粒形状无显著差异。计算机模拟结果表明,铝-不锈钢焊接接头仅在铝侧焊缝界面附近出现热影响区痕迹,实验结果也证实了这一点
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Temperature Cycle Analysis of A6061-AISI304 Dissimilar Metal Continuous Drive Friction Welding
In the previous study, Continuous Drive Friction Welding (CDFW) had been investigated to determine the strength of joining, burn off, and temperature distribution. In this study, Dissimilar Metal CDFW was studied to assess temperature cycle analysis. Aluminum 6061 (A6061) workpiece was fixed, and an AISI 304 was rotated at 1,000 rpm. The temperature distribution was measured by using an OMEGA Thermocouple Data Logger. The thermocouple was installed near joining location 5 mm distance from the joint. In the computer simulation, the geometry of CDFW was designed using ANSYS Design Modeler. Computer simulation with transient thermal combined with static structural analysis was modeled by using ANSYS academic version Rel. 18.1. The boundary condition was set based on the experimental condition, where the Aluminum 6061 was fixed, and the AISI 304 was rotated at 1,000 rpm. Based on the experimental results, the temperature profile as the outer surface of the distance of the center of the joint location can be measured. From the simulation results, it can be seen that the temperature cycle profile is the same trend with experimental results. The mechanical properties provided that this phenomenon is shown in the characteristics of tensile strength, microstructure and hardness test as model analysis to denote the connection from temperature cycle profile with mechanical properties test results. Microstructure observation revealed that there is no significant difference in grain size and grain shape on the stainless steel side. Computer simulation results showed that the welded aluminum-stainless steel joint shows marks of heat affected zone near the weld interface only on the aluminum side, and this was confirmed by experimental results
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